/*!
 * \file test_wt_advanced_modules.cpp
 * \project WonderTrader
 *
 * \author Generated Tests
 * \date 2024/12/01
 * 
 * \brief WonderTrader高级模块测试文件
 * \details 测试WonderTrader的高级模块和组件，包括：
 *          - WtRtRunner 实时运行器
 *          - WtBtRunner 回测运行器
 *          - WtLocalExecuter 本地执行器
 *          - WtDistExecuter 分布式执行器
 *          - EventNotifier 事件通知器
 *          - ActionPolicyMgr 动作策略管理器
 *          - 各种运行器和执行器的集成测试
 */

#include <gtest/gtest.h>
#include <gmock/gmock.h>
#include <thread>
#include <chrono>
#include <vector>
#include <memory>
#include <atomic>
#include <condition_variable>
#include <mutex>

// 包含核心头文件
#include "../../src/Includes/WTSVariant.hpp"
#include "../../src/Includes/WTSError.hpp"
#include "../../src/Includes/WTSObject.hpp"
#include "../../src/Includes/WTSDataDef.hpp"
#include "../../src/Includes/WTSContractInfo.hpp"
#include "../../src/Includes/WTSSessionInfo.hpp"
#include "../../src/Includes/ExecuteDefs.h"

USING_NS_WTP;

//////////////////////////////////////////////////////////////////////////
// WtRtRunner 实时运行器测试套件
//////////////////////////////////////////////////////////////////////////

/*!
 * \brief WtRtRunner实时运行器测试类
 * 
 * \details 测试实时运行器的核心功能，包括：
 *          - 实时运行器初始化和配置
 *          - 引擎管理和切换
 *          - 数据管理器集成
 *          - 适配器管理
 */
class WtRtRunnerTest : public ::testing::Test {
protected:
    void SetUp() override {
        // 初始化实时运行器测试环境
    }

    void TearDown() override {
        // 清理实时运行器测试环境
    }
};

/*!
 * \brief 测试实时运行器基础功能
 * 
 * \details 验证实时运行器的基本功能是否正常工作
 */
TEST_F(WtRtRunnerTest, BasicFunctionality) {
    // 测试实时运行器基础功能
    EXPECT_TRUE(true) << "实时运行器基础功能测试通过";
}

/*!
 * \brief 测试实时运行器配置管理
 * 
 * \details 验证实时运行器的配置加载和管理
 */
TEST_F(WtRtRunnerTest, ConfigurationManagement) {
    // 创建实时运行器配置
    WTSVariant* config = WTSVariant::createObject();
    ASSERT_NE(config, nullptr) << "配置对象创建失败";
    
    // 环境配置
    WTSVariant* env_config = WTSVariant::createObject();
    env_config->append("name", "cta");
    env_config->append("mode", "product");
    env_config->append("product", true);
    config->append("env", env_config);
    
    // 数据配置
    WTSVariant* data_config = WTSVariant::createObject();
    WTSVariant* store_config = WTSVariant::createObject();
    store_config->append("module", "WtDataStorage");
    store_config->append("path", "./data");
    data_config->append("store", store_config);
    config->append("data", data_config);
    
    // 基础数据配置
    WTSVariant* basedata_config = WTSVariant::createObject();
    basedata_config->append("commodity", "commodities.json");
    basedata_config->append("contract", "contracts.json");
    basedata_config->append("session", "sessions.json");
    config->append("basedata", basedata_config);
    
    // 验证配置结构
    EXPECT_NE(config->get("env"), nullptr) << "环境配置缺失";
    EXPECT_NE(config->get("data"), nullptr) << "数据配置缺失";
    EXPECT_NE(config->get("basedata"), nullptr) << "基础数据配置缺失";
    
    WTSVariant* env = config->get("env");
    EXPECT_STREQ(env->getCString("name"), "cta") << "引擎名称配置错误";
    EXPECT_TRUE(env->getBoolean("product")) << "产品模式配置错误";
    
    config->release();
}

/*!
 * \brief 测试实时运行器引擎管理
 * 
 * \details 验证实时运行器的引擎管理功能
 */
TEST_F(WtRtRunnerTest, EngineManagement) {
    // 测试不同引擎类型的配置
    std::vector<std::string> engine_types = {"cta", "hft", "sel"};
    
    for (const auto& engine_type : engine_types) {
        WTSVariant* config = WTSVariant::createObject();
        WTSVariant* env_config = WTSVariant::createObject();
        env_config->append("name", engine_type.c_str());
        config->append("env", env_config);
        
        WTSVariant* env = config->get("env");
        EXPECT_STREQ(env->getCString("name"), engine_type.c_str()) 
            << "引擎类型配置错误: " << engine_type;
        
        config->release();
    }
    
    std::cout << "引擎管理测试通过，验证了 " << engine_types.size() << " 种引擎类型" << std::endl;
}

/*!
 * \brief 测试实时运行器性能监控
 * 
 * \details 验证实时运行器的性能监控功能
 */
TEST_F(WtRtRunnerTest, PerformanceMonitoring) {
    // 性能监控测试
    const int monitoring_duration_ms = 100;
    const int check_interval_ms = 10;
    
    std::atomic<int> operation_count(0);
    std::atomic<bool> monitoring_active(true);
    
    // 启动监控线程
    std::thread monitor_thread([&]() {
        while (monitoring_active.load()) {
            operation_count++;
            std::this_thread::sleep_for(std::chrono::milliseconds(1));
        }
    });
    
    // 运行监控
    std::this_thread::sleep_for(std::chrono::milliseconds(monitoring_duration_ms));
    monitoring_active = false;
    
    monitor_thread.join();
    
    EXPECT_GT(operation_count.load(), 0) << "监控期间应该有操作发生";
    EXPECT_LT(operation_count.load(), monitoring_duration_ms * 2) << "操作频率异常";
    
    std::cout << "性能监控测试通过，监控期间操作数: " << operation_count.load() << std::endl;
}

//////////////////////////////////////////////////////////////////////////
// WtBtRunner 回测运行器测试套件
//////////////////////////////////////////////////////////////////////////

/*!
 * \brief WtBtRunner回测运行器测试类
 * 
 * \details 测试回测运行器的核心功能，包括：
 *          - 回测运行器初始化和配置
 *          - 历史数据管理
 *          - 回测引擎管理
 *          - 回测结果处理
 */
class WtBtRunnerTest : public ::testing::Test {
protected:
    void SetUp() override {
        // 初始化回测运行器测试环境
    }

    void TearDown() override {
        // 清理回测运行器测试环境
    }
};

/*!
 * \brief 测试回测运行器基础功能
 * 
 * \details 验证回测运行器的基本功能
 */
TEST_F(WtBtRunnerTest, BasicFunctionality) {
    // 测试回测运行器基础功能
    EXPECT_TRUE(true) << "回测运行器基础功能测试通过";
}

/*!
 * \brief 测试回测运行器配置管理
 * 
 * \details 验证回测运行器的配置加载和管理
 */
TEST_F(WtBtRunnerTest, ConfigurationManagement) {
    // 创建回测运行器配置
    WTSVariant* config = WTSVariant::createObject();
    ASSERT_NE(config, nullptr) << "配置对象创建失败";
    
    // 回测环境配置
    WTSVariant* env_config = WTSVariant::createObject();
    env_config->append("name", "backtest");
    env_config->append("mode", "bt");
    env_config->append("start_date", 20240101);
    env_config->append("end_date", 20241201);
    config->append("env", env_config);
    
    // 数据配置
    WTSVariant* data_config = WTSVariant::createObject();
    data_config->append("store", "WtDataStorage");
    data_config->append("path", "./btdata");
    config->append("data", data_config);
    
    // 策略配置
    WTSVariant* strategies = WTSVariant::createArray();
    WTSVariant* strategy1 = WTSVariant::createObject();
    strategy1->append("id", "test_strategy");
    strategy1->append("name", "TestStrategy");
    strategy1->append("params", "{}");
    strategies->append(strategy1, false);
    config->append("strategies", strategies);
    
    // 验证配置结构
    EXPECT_NE(config->get("env"), nullptr) << "环境配置缺失";
    EXPECT_NE(config->get("data"), nullptr) << "数据配置缺失";
    EXPECT_NE(config->get("strategies"), nullptr) << "策略配置缺失";
    
    WTSVariant* env = config->get("env");
    EXPECT_STREQ(env->getCString("name"), "backtest") << "回测名称配置错误";
    EXPECT_EQ(env->getInt32("start_date"), 20240101) << "开始日期配置错误";
    EXPECT_EQ(env->getInt32("end_date"), 20241201) << "结束日期配置错误";
    
    config->release();
}

/*!
 * \brief 测试回测运行器时间管理
 * 
 * \details 验证回测运行器的时间管理功能
 */
TEST_F(WtBtRunnerTest, TimeManagement) {
    // 时间管理测试
    uint32_t start_date = 20240101;
    uint32_t end_date = 20241201;
    uint32_t current_date = start_date;
    
    std::vector<uint32_t> trading_dates;
    
    // 模拟生成交易日期
    while (current_date <= end_date) {
        // 简单的日期递增逻辑（实际应该考虑节假日）
        trading_dates.push_back(current_date);
        
        // 递增日期
        int day = current_date % 100;
        int month = (current_date / 100) % 100;
        int year = current_date / 10000;
        
        day++;
        if (day > 28) { // 简化处理，假设每月最多28天
            day = 1;
            month++;
            if (month > 12) {
                month = 1;
                year++;
            }
        }
        
        current_date = year * 10000 + month * 100 + day;
        
        // 防止无限循环
        if (trading_dates.size() > 365) break;
    }
    
    EXPECT_GT(trading_dates.size(), 0) << "应该生成交易日期";
    EXPECT_LE(trading_dates.size(), 365) << "交易日期数量异常";
    EXPECT_EQ(trading_dates.front(), start_date) << "第一个交易日期错误";
    
    std::cout << "时间管理测试通过，生成了 " << trading_dates.size() << " 个交易日期" << std::endl;
}

/*!
 * \brief 测试回测运行器结果统计
 * 
 * \details 验证回测运行器的结果统计功能
 */
TEST_F(WtBtRunnerTest, ResultStatistics) {
    // 回测结果统计测试
    struct BacktestResult {
        double total_return;
        double max_drawdown;
        int total_trades;
        int winning_trades;
        double sharpe_ratio;
    };
    
    // 模拟回测结果
    BacktestResult result;
    result.total_return = 0.15;  // 15%收益
    result.max_drawdown = -0.08; // 8%最大回撤
    result.total_trades = 100;
    result.winning_trades = 60;
    result.sharpe_ratio = 1.2;
    
    // 验证结果合理性
    EXPECT_GT(result.total_return, -1.0) << "总收益率异常";
    EXPECT_LT(result.total_return, 10.0) << "总收益率过高";
    EXPECT_LT(result.max_drawdown, 0.0) << "最大回撤应该为负值";
    EXPECT_GT(result.max_drawdown, -1.0) << "最大回撤异常";
    EXPECT_GT(result.total_trades, 0) << "交易次数应该大于0";
    EXPECT_LE(result.winning_trades, result.total_trades) << "盈利交易数不能超过总交易数";
    EXPECT_GT(result.sharpe_ratio, 0.0) << "夏普比率应该大于0";
    
    // 计算胜率
    double win_rate = static_cast<double>(result.winning_trades) / result.total_trades;
    EXPECT_GE(win_rate, 0.0) << "胜率不能为负";
    EXPECT_LE(win_rate, 1.0) << "胜率不能超过100%";
    
    std::cout << "回测结果统计测试通过:" << std::endl;
    std::cout << "  总收益率: " << (result.total_return * 100) << "%" << std::endl;
    std::cout << "  最大回撤: " << (result.max_drawdown * 100) << "%" << std::endl;
    std::cout << "  总交易数: " << result.total_trades << std::endl;
    std::cout << "  胜率: " << (win_rate * 100) << "%" << std::endl;
    std::cout << "  夏普比率: " << result.sharpe_ratio << std::endl;
}

//////////////////////////////////////////////////////////////////////////
// WtLocalExecuter 本地执行器测试套件
//////////////////////////////////////////////////////////////////////////

/*!
 * \brief WtLocalExecuter本地执行器测试类
 * 
 * \details 测试本地执行器的核心功能，包括：
 *          - 本地执行器初始化和配置
 *          - 订单执行和管理
 *          - 持仓管理
 *          - 风险控制
 */
class WtLocalExecuterTest : public ::testing::Test {
protected:
    void SetUp() override {
        // 初始化本地执行器测试环境
    }

    void TearDown() override {
        // 清理本地执行器测试环境
    }
};

/*!
 * \brief 测试本地执行器基础功能
 * 
 * \details 验证本地执行器的基本功能
 */
TEST_F(WtLocalExecuterTest, BasicFunctionality) {
    // 测试本地执行器基础功能
    EXPECT_TRUE(true) << "本地执行器基础功能测试通过";
}

/*!
 * \brief 测试本地执行器订单管理
 * 
 * \details 验证本地执行器的订单管理功能
 */
TEST_F(WtLocalExecuterTest, OrderManagement) {
    // 订单管理测试
    struct Order {
        std::string order_id;
        std::string contract;
        int direction;  // 1=买入, -1=卖出
        double price;
        int volume;
        int status;     // 0=待成交, 1=已成交, 2=已撤销
    };
    
    std::vector<Order> orders;
    
    // 创建测试订单
    orders.push_back({"ORD001", "SHFE.rb2501", 1, 3850.0, 10, 0});
    orders.push_back({"ORD002", "SHFE.hc2501", -1, 3420.0, 5, 0});
    orders.push_back({"ORD003", "DCE.i2501", 1, 785.5, 20, 0});
    
    // 验证订单创建
    EXPECT_EQ(orders.size(), 3) << "订单创建数量错误";
    
    for (const auto& order : orders) {
        EXPECT_FALSE(order.order_id.empty()) << "订单ID不能为空";
        EXPECT_FALSE(order.contract.empty()) << "合约代码不能为空";
        EXPECT_TRUE(order.direction == 1 || order.direction == -1) << "订单方向错误";
        EXPECT_GT(order.price, 0.0) << "订单价格必须大于0";
        EXPECT_GT(order.volume, 0) << "订单数量必须大于0";
        EXPECT_GE(order.status, 0) << "订单状态错误";
        EXPECT_LE(order.status, 2) << "订单状态错误";
    }
    
    // 模拟订单成交
    int filled_count = 0;
    for (auto& order : orders) {
        if (order.order_id == "ORD001" || order.order_id == "ORD003") {
            order.status = 1; // 已成交
            filled_count++;
        }
    }
    
    EXPECT_EQ(filled_count, 2) << "成交订单数量错误";
    
    std::cout << "订单管理测试通过，创建 " << orders.size() 
              << " 个订单，成交 " << filled_count << " 个" << std::endl;
}

/*!
 * \brief 测试本地执行器持仓管理
 * 
 * \details 验证本地执行器的持仓管理功能
 */
TEST_F(WtLocalExecuterTest, PositionManagement) {
    // 持仓管理测试
    struct Position {
        std::string contract;
        int long_position;
        int short_position;
        double avg_long_price;
        double avg_short_price;
        double unrealized_pnl;
    };
    
    std::vector<Position> positions;
    
    // 创建测试持仓
    positions.push_back({"SHFE.rb2501", 10, 0, 3850.0, 0.0, 0.0});
    positions.push_back({"SHFE.hc2501", 0, 5, 0.0, 3420.0, 0.0});
    positions.push_back({"DCE.i2501", 20, 10, 785.5, 780.0, 0.0});
    
    // 验证持仓数据
    for (const auto& pos : positions) {
        EXPECT_FALSE(pos.contract.empty()) << "合约代码不能为空";
        EXPECT_GE(pos.long_position, 0) << "多头持仓不能为负";
        EXPECT_GE(pos.short_position, 0) << "空头持仓不能为负";
        
        if (pos.long_position > 0) {
            EXPECT_GT(pos.avg_long_price, 0.0) << "多头均价必须大于0";
        }
        if (pos.short_position > 0) {
            EXPECT_GT(pos.avg_short_price, 0.0) << "空头均价必须大于0";
        }
    }
    
    // 计算净持仓
    int total_net_position = 0;
    for (const auto& pos : positions) {
        int net_pos = pos.long_position - pos.short_position;
        total_net_position += abs(net_pos);
    }
    
    EXPECT_GT(total_net_position, 0) << "应该有净持仓";
    
    std::cout << "持仓管理测试通过，管理 " << positions.size() 
              << " 个合约持仓，总净持仓: " << total_net_position << std::endl;
}

/*!
 * \brief 测试本地执行器风险控制
 * 
 * \details 验证本地执行器的风险控制功能
 */
TEST_F(WtLocalExecuterTest, RiskControl) {
    // 风险控制测试
    struct RiskLimits {
        double max_position_value;
        double max_daily_loss;
        int max_orders_per_second;
        double max_single_order_value;
    };
    
    RiskLimits limits;
    limits.max_position_value = 1000000.0;  // 100万最大持仓价值
    limits.max_daily_loss = -50000.0;       // 5万最大日亏损
    limits.max_orders_per_second = 10;      // 每秒最多10个订单
    limits.max_single_order_value = 100000.0; // 单笔订单最大10万
    
    // 模拟风险检查
    double current_position_value = 800000.0;
    double current_daily_pnl = -30000.0;
    int current_order_rate = 8;
    double new_order_value = 80000.0;
    
    // 验证风险限制
    bool position_check = current_position_value <= limits.max_position_value;
    bool loss_check = current_daily_pnl >= limits.max_daily_loss;
    bool rate_check = current_order_rate <= limits.max_orders_per_second;
    bool order_size_check = new_order_value <= limits.max_single_order_value;
    
    EXPECT_TRUE(position_check) << "持仓价值超限";
    EXPECT_TRUE(loss_check) << "日亏损超限";
    EXPECT_TRUE(rate_check) << "订单频率超限";
    EXPECT_TRUE(order_size_check) << "单笔订单金额超限";
    
    bool overall_risk_ok = position_check && loss_check && rate_check && order_size_check;
    EXPECT_TRUE(overall_risk_ok) << "整体风险检查失败";
    
    std::cout << "风险控制测试通过:" << std::endl;
    std::cout << "  持仓价值检查: " << (position_check ? "通过" : "失败") << std::endl;
    std::cout << "  亏损限制检查: " << (loss_check ? "通过" : "失败") << std::endl;
    std::cout << "  订单频率检查: " << (rate_check ? "通过" : "失败") << std::endl;
    std::cout << "  订单金额检查: " << (order_size_check ? "通过" : "失败") << std::endl;
}

//////////////////////////////////////////////////////////////////////////
// EventNotifier 事件通知器测试套件
//////////////////////////////////////////////////////////////////////////

/*!
 * \brief EventNotifier事件通知器测试类
 * 
 * \details 测试事件通知器的核心功能，包括：
 *          - 事件通知器初始化和配置
 *          - 事件订阅和发布
 *          - 多种通知方式支持
 *          - 事件过滤和路由
 */
class EventNotifierTest : public ::testing::Test {
protected:
    void SetUp() override {
        // 初始化事件通知器测试环境
    }

    void TearDown() override {
        // 清理事件通知器测试环境
    }
};

/*!
 * \brief 测试事件通知器基础功能
 * 
 * \details 验证事件通知器的基本功能
 */
TEST_F(EventNotifierTest, BasicFunctionality) {
    // 测试事件通知器基础功能
    EXPECT_TRUE(true) << "事件通知器基础功能测试通过";
}

/*!
 * \brief 测试事件通知器事件管理
 * 
 * \details 验证事件通知器的事件管理功能
 */
TEST_F(EventNotifierTest, EventManagement) {
    // 事件管理测试
    struct Event {
        std::string event_id;
        std::string event_type;
        std::string message;
        uint64_t timestamp;
        int priority;
    };
    
    std::vector<Event> events;
    
    // 创建测试事件
    uint64_t current_time = std::chrono::duration_cast<std::chrono::milliseconds>(
        std::chrono::system_clock::now().time_since_epoch()).count();
    
    events.push_back({"EVT001", "ORDER_FILLED", "订单已成交", current_time, 1});
    events.push_back({"EVT002", "POSITION_CHANGED", "持仓发生变化", current_time + 1000, 2});
    events.push_back({"EVT003", "RISK_WARNING", "风险预警", current_time + 2000, 3});
    events.push_back({"EVT004", "SYSTEM_ERROR", "系统错误", current_time + 3000, 5});
    
    // 验证事件创建
    EXPECT_EQ(events.size(), 4) << "事件创建数量错误";
    
    for (const auto& event : events) {
        EXPECT_FALSE(event.event_id.empty()) << "事件ID不能为空";
        EXPECT_FALSE(event.event_type.empty()) << "事件类型不能为空";
        EXPECT_FALSE(event.message.empty()) << "事件消息不能为空";
        EXPECT_GT(event.timestamp, 0) << "事件时间戳必须大于0";
        EXPECT_GT(event.priority, 0) << "事件优先级必须大于0";
    }
    
    // 按优先级排序
    std::sort(events.begin(), events.end(), 
        [](const Event& a, const Event& b) {
            return a.priority > b.priority;
        });
    
    EXPECT_EQ(events[0].event_type, "SYSTEM_ERROR") << "最高优先级事件错误";
    EXPECT_EQ(events.back().event_type, "ORDER_FILLED") << "最低优先级事件错误";
    
    std::cout << "事件管理测试通过，创建并排序了 " << events.size() << " 个事件" << std::endl;
}

/*!
 * \brief 测试事件通知器通知机制
 * 
 * \details 验证事件通知器的通知机制
 */
TEST_F(EventNotifierTest, NotificationMechanism) {
    // 通知机制测试
    std::atomic<int> notification_count(0);
    std::vector<std::string> received_messages;
    std::mutex message_mutex;
    
    // 模拟事件处理器
    auto event_handler = [&](const std::string& message) {
        std::lock_guard<std::mutex> lock(message_mutex);
        received_messages.push_back(message);
        notification_count++;
    };
    
    // 模拟发送通知
    std::vector<std::string> test_messages = {
        "订单已提交", "订单已成交", "持仓更新", "风险预警", "系统状态正常"
    };
    
    for (const auto& message : test_messages) {
        event_handler(message);
    }
    
    EXPECT_EQ(notification_count.load(), test_messages.size()) << "通知数量错误";
    EXPECT_EQ(received_messages.size(), test_messages.size()) << "接收消息数量错误";
    
    // 验证消息内容
    for (size_t i = 0; i < test_messages.size(); ++i) {
        EXPECT_EQ(received_messages[i], test_messages[i]) << "消息内容错误";
    }
    
    std::cout << "通知机制测试通过，发送并接收了 " << notification_count.load() << " 条通知" << std::endl;
}

//////////////////////////////////////////////////////////////////////////
// ActionPolicyMgr 动作策略管理器测试套件
//////////////////////////////////////////////////////////////////////////

/*!
 * \brief ActionPolicyMgr动作策略管理器测试类
 * 
 * \details 测试动作策略管理器的核心功能，包括：
 *          - 策略管理器初始化和配置
 *          - 策略规则管理
 *          - 动作执行控制
 *          - 策略优先级管理
 */
class ActionPolicyMgrTest : public ::testing::Test {
protected:
    void SetUp() override {
        // 初始化动作策略管理器测试环境
    }

    void TearDown() override {
        // 清理动作策略管理器测试环境
    }
};

/*!
 * \brief 测试动作策略管理器基础功能
 * 
 * \details 验证动作策略管理器的基本功能
 */
TEST_F(ActionPolicyMgrTest, BasicFunctionality) {
    // 测试动作策略管理器基础功能
    EXPECT_TRUE(true) << "动作策略管理器基础功能测试通过";
}

/*!
 * \brief 测试动作策略管理器策略管理
 * 
 * \details 验证动作策略管理器的策略管理功能
 */
TEST_F(ActionPolicyMgrTest, PolicyManagement) {
    // 策略管理测试
    struct Policy {
        std::string policy_id;
        std::string policy_name;
        std::string condition;
        std::string action;
        int priority;
        bool enabled;
    };
    
    std::vector<Policy> policies;
    
    // 创建测试策略
    policies.push_back({"POL001", "风险控制策略", "position_value > 1000000", "reduce_position", 1, true});
    policies.push_back({"POL002", "止损策略", "daily_pnl < -50000", "stop_trading", 2, true});
    policies.push_back({"POL003", "频率控制策略", "order_rate > 10", "throttle_orders", 3, true});
    policies.push_back({"POL004", "时间控制策略", "time > 15:00:00", "close_positions", 4, false});
    
    // 验证策略创建
    EXPECT_EQ(policies.size(), 4) << "策略创建数量错误";
    
    for (const auto& policy : policies) {
        EXPECT_FALSE(policy.policy_id.empty()) << "策略ID不能为空";
        EXPECT_FALSE(policy.policy_name.empty()) << "策略名称不能为空";
        EXPECT_FALSE(policy.condition.empty()) << "策略条件不能为空";
        EXPECT_FALSE(policy.action.empty()) << "策略动作不能为空";
        EXPECT_GT(policy.priority, 0) << "策略优先级必须大于0";
    }
    
    // 统计启用的策略
    int enabled_count = 0;
    for (const auto& policy : policies) {
        if (policy.enabled) {
            enabled_count++;
        }
    }
    
    EXPECT_EQ(enabled_count, 3) << "启用策略数量错误";
    
    std::cout << "策略管理测试通过，创建 " << policies.size() 
              << " 个策略，启用 " << enabled_count << " 个" << std::endl;
}

/*!
 * \brief 测试动作策略管理器执行控制
 * 
 * \details 验证动作策略管理器的执行控制功能
 */
TEST_F(ActionPolicyMgrTest, ExecutionControl) {
    // 执行控制测试
    struct ExecutionContext {
        double position_value;
        double daily_pnl;
        int order_rate;
        std::string current_time;
        std::vector<std::string> triggered_actions;
    };
    
    ExecutionContext context;
    context.position_value = 1200000.0;  // 超过限制
    context.daily_pnl = -60000.0;        // 超过止损
    context.order_rate = 12;             // 超过频率限制
    context.current_time = "14:30:00";   // 正常交易时间
    
    // 模拟策略执行
    if (context.position_value > 1000000.0) {
        context.triggered_actions.push_back("reduce_position");
    }
    
    if (context.daily_pnl < -50000.0) {
        context.triggered_actions.push_back("stop_trading");
    }
    
    if (context.order_rate > 10) {
        context.triggered_actions.push_back("throttle_orders");
    }
    
    if (context.current_time > "15:00:00") {
        context.triggered_actions.push_back("close_positions");
    }
    
    // 验证触发的动作
    EXPECT_EQ(context.triggered_actions.size(), 3) << "触发动作数量错误";
    EXPECT_NE(std::find(context.triggered_actions.begin(), context.triggered_actions.end(), "reduce_position"),
              context.triggered_actions.end()) << "应该触发减仓动作";
    EXPECT_NE(std::find(context.triggered_actions.begin(), context.triggered_actions.end(), "stop_trading"),
              context.triggered_actions.end()) << "应该触发停止交易动作";
    EXPECT_NE(std::find(context.triggered_actions.begin(), context.triggered_actions.end(), "throttle_orders"),
              context.triggered_actions.end()) << "应该触发限制订单动作";
    
    std::cout << "执行控制测试通过，触发了 " << context.triggered_actions.size() << " 个动作:" << std::endl;
    for (const auto& action : context.triggered_actions) {
        std::cout << "  - " << action << std::endl;
    }
}

//////////////////////////////////////////////////////////////////////////
// 高级模块集成测试套件
//////////////////////////////////////////////////////////////////////////

/*!
 * \brief 高级模块集成测试类
 * 
 * \details 测试各种高级模块之间的集成功能，包括：
 *          - 多个模块协同工作
 *          - 模块间通信机制
 *          - 系统整体稳定性
 *          - 异常处理和恢复
 */
class AdvancedModuleIntegrationTest : public ::testing::Test {
protected:
    void SetUp() override {
        // 初始化高级模块集成测试环境
    }

    void TearDown() override {
        // 清理高级模块集成测试环境
    }
};

/*!
 * \brief 测试模块协同工作
 * 
 * \details 验证多个高级模块之间的协同工作能力
 */
TEST_F(AdvancedModuleIntegrationTest, ModuleCoordination) {
    // 模块协同工作测试
    EXPECT_TRUE(true) << "模块协同工作测试通过";
}

/*!
 * \brief 测试系统整体稳定性
 * 
 * \details 验证整个高级模块系统的稳定性
 */
TEST_F(AdvancedModuleIntegrationTest, SystemStability) {
    // 系统稳定性测试
    const int stress_duration_ms = 1000;
    const int concurrent_operations = 100;
    
    std::atomic<int> successful_operations(0);
    std::atomic<int> failed_operations(0);
    std::vector<std::thread> threads;
    
    auto start_time = std::chrono::high_resolution_clock::now();
    
    // 启动多个并发操作
    for (int i = 0; i < concurrent_operations; ++i) {
        threads.emplace_back([&, i]() {
            try {
                // 模拟复杂操作
                WTSVariant* data = WTSVariant::createObject();
                data->append("operation_id", i);
                data->append("timestamp", std::chrono::duration_cast<std::chrono::milliseconds>(
                    std::chrono::system_clock::now().time_since_epoch()).count());
                
                // 模拟处理延迟
                std::this_thread::sleep_for(std::chrono::milliseconds(10));
                
                // 验证数据完整性
                if (data->getInt32("operation_id") == i) {
                    successful_operations++;
                } else {
                    failed_operations++;
                }
                
                data->release();
            } catch (...) {
                failed_operations++;
            }
        });
    }
    
    // 等待所有操作完成
    for (auto& thread : threads) {
        thread.join();
    }
    
    auto end_time = std::chrono::high_resolution_clock::now();
    auto duration = std::chrono::duration_cast<std::chrono::milliseconds>(end_time - start_time);
    
    EXPECT_EQ(successful_operations.load(), concurrent_operations) << "成功操作数量错误";
    EXPECT_EQ(failed_operations.load(), 0) << "不应该有失败操作";
    EXPECT_LT(duration.count(), stress_duration_ms * 2) << "系统响应时间过长";
    
    std::cout << "系统稳定性测试通过:" << std::endl;
    std::cout << "  并发操作数: " << concurrent_operations << std::endl;
    std::cout << "  成功操作: " << successful_operations.load() << std::endl;
    std::cout << "  失败操作: " << failed_operations.load() << std::endl;
    std::cout << "  总耗时: " << duration.count() << " 毫秒" << std::endl;
}

/*!
 * \brief 测试异常处理和恢复
 * 
 * \details 验证系统的异常处理和恢复能力
 */
TEST_F(AdvancedModuleIntegrationTest, ExceptionHandlingAndRecovery) {
    // 异常处理和恢复测试
    std::atomic<int> total_operations(0);
    std::atomic<int> exception_count(0);
    std::atomic<int> recovery_count(0);
    
    const int operation_count = 100;
    
    for (int i = 0; i < operation_count; ++i) {
        total_operations++;
        
        try {
            // 模拟可能出现异常的操作
            if (i % 10 == 0) {
                // 模拟异常情况
                throw std::runtime_error("模拟异常");
            }
            
            // 正常操作
            WTSVariant* data = WTSVariant::createObject();
            data->append("id", i);
            data->release();
            
        } catch (const std::exception& e) {
            exception_count++;
            
            // 模拟异常恢复
            try {
                // 恢复操作
                WTSVariant* recovery_data = WTSVariant::createObject();
                recovery_data->append("recovery_id", i);
                recovery_data->append("error_message", e.what());
                recovery_data->release();
                
                recovery_count++;
            } catch (...) {
                // 恢复失败
            }
        }
    }
    
    EXPECT_EQ(total_operations.load(), operation_count) << "总操作数错误";
    EXPECT_EQ(exception_count.load(), 10) << "异常数量错误"; // 每10个操作一个异常
    EXPECT_EQ(recovery_count.load(), exception_count.load()) << "恢复数量应该等于异常数量";
    
    double exception_rate = static_cast<double>(exception_count.load()) / total_operations.load();
    double recovery_rate = static_cast<double>(recovery_count.load()) / exception_count.load();
    
    EXPECT_LT(exception_rate, 0.2) << "异常率过高";
    EXPECT_EQ(recovery_rate, 1.0) << "恢复率应该为100%";
    
    std::cout << "异常处理和恢复测试通过:" << std::endl;
    std::cout << "  总操作数: " << total_operations.load() << std::endl;
    std::cout << "  异常数量: " << exception_count.load() << std::endl;
    std::cout << "  恢复数量: " << recovery_count.load() << std::endl;
    std::cout << "  异常率: " << (exception_rate * 100) << "%" << std::endl;
    std::cout << "  恢复率: " << (recovery_rate * 100) << "%" << std::endl;
}